Prof. Wail Al Zoubi | Standard Model Physics | Research Excellence Award

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Prof. Wail Al Zoubi | Standard Model Physics | Research Excellence Award

Professor | Yeungnam university | South Korea

Prof. Wail Al Zoubi is a distinguished researcher whose scientific contributions span advanced materials chemistry, catalysis, hybrid organic inorganic systems, electrochemical engineering, and surface science, and his work demonstrates an exceptional interdisciplinary reach that aligns conceptually with the analytical rigor often associated with Standard Model Physics, allowing this thematic reference to appear as a conceptual anchor throughout his professional profile. With more than one hundred publications in high impact journals, his research achievements integrate experimental design, theoretical modeling, machine learning assisted prediction, and novel synthesis pathways for nanostructures and functional materials, echoing the structured methodological precision characteristic of Standard Model Physics while advancing innovations in catalysis, adsorption, corrosion protection, photon assisted reactions, and energy storage. His collaborations with leading international teams strengthen the global relevance of his work and reflect a research ecosystem where the systematic reasoning similar to Standard Model Physics guides the interpretation of material behavior, catalytic mechanisms, and structure property relationships. Prof. Wail Al Zoubi has made significant scientific contributions in areas such as high entropy nanoparticles, MXenes, Schiff base derived complexes, organic inorganic hybrid coatings, plasma assisted fabrication, and environmentally oriented remediation materials, and these contributions are repeatedly framed within a conceptual space where Standard Model Physics serves as a metaphor for disciplined scientific structure, predictive accuracy, and methodological coherence. His publications receive sustained citations and demonstrate broad influence across chemistry, materials science, nanotechnology, and environmental science, forming an academic trajectory that reflects both depth and interdisciplinary breadth. Through impactful collaborations, editorial responsibilities, and sustained research productivity, he continues to shape key directions in advanced materials research, maintaining conceptual parallels to Standard Model Physics in the way his scientific work constructs, tests, and refines multi variable frameworks that explain material interactions and catalytic behavior. His scholarly presence is further affirmed through the Google Scholar profile of 5831 Citations, 41 h index, 107 i10 index.

Profile: Google Scholar

Featured Publications

1. Al Zoubi, W. (2013). Biological activities of Schiff bases and their complexes: A review of recent works. International Journal of Organic Chemistry, 3(3), 73–95.

2. Al Zoubi, W., Al-Hamdani, A. A. S., & Kaseem, M. (2016). Synthesis and antioxidant activities of Schiff bases and their complexes: A review. Applied Organometallic Chemistry, 30(10), 810–817.

3. Al Zoubi, W., Kamil, M. P., Fatimah, S., Nashrah, N., & Ko, Y. G. (2020). Recent advances in hybrid organic–inorganic materials with spatial architecture for state-of-the-art applications. Progress in Materials Science, 112, 100663.

4. Al Zoubi, W., & Ko, Y. G. (2016). Organometallic complexes of Schiff bases: Recent progress in oxidation catalysis. Journal of Organometallic Chemistry, 822, 173–188.

5. Al Zoubi, W., & Ko, Y. G. (2017). Schiff base complexes and their versatile applications as catalysts in oxidation of organic compounds: Part I. Applied Organometallic Chemistry, 31(3), e3574.

Dr. Xiaoguang Liu | Particle Experiments | Research Excellence Award

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Dr. Xiaoguang Liu | Particle Experiments | Research Excellence Award

Associate Professor | University of Science and Technology Beijing | China

Dr. Xiaoguang Liu is a distinguished researcher whose work reflects a strong commitment to advancing materials science through the continuous integration of Particle Experiments that shape modern understanding of high temperature ceramics and catalytic systems. Dr. Xiaoguang Liu has built a research profile centered on the development of high temperature ceramic coatings designed for extreme operational environments, while also contributing to high efficiency catalysts applied in wastewater treatment, a field where Particle Experiments consistently guide both conceptual progress and practical outcomes. Through extensive engagement with Particle Experiments that support investigations of electron transfer mechanisms in Z scheme semiconductor catalysts, Dr. Xiaoguang Liu has strengthened fundamental knowledge and broadened technological applications across academic and industrial collaborations. With publications across journals indexed in global databases and contributions that extend to consultancy and industry oriented projects, Dr. Xiaoguang Liu has demonstrated how Particle Experiments reinforce the reliability, precision, and societal relevance of innovative research outputs. Editorial appointments further reflect scientific leadership shaped by meticulous Particle Experiments that validate results across catalytic and ceramic systems. Patents, authored works, and research projects also highlight the consistent integration of Particle Experiments as a methodological core that enhances the robustness of experimental design and the credibility of research conclusions. Professional engagements and collaborative activities continue to expand the impact of Particle Experiments within interdisciplinary frameworks, demonstrating sustained contributions to material enhancement, environmental improvement, and scientific advancement. With ongoing research inspired by Particle Experiments that support both theoretical insight and experimental validation, Dr. Xiaoguang Liu remains a significant contributor to globally relevant innovations. Scopus profile of 1,643 Citations, 54 Documents, 21 h index.

Profile: Scopus

Featured Publications

1. Synergistic design of a novel Z-Scheme M-r-MIL-88A(Fe)/Bi₅O₇I-OVs with Fe²⁺/Fe³⁺ and oxygen vacancies for high-efficiency peroxymonosulfate activation and pollutant degradation: Mechanisms and DFT calculation. Separation and Purification Technology. (2026).

2. Polyvinyl alcohol and methyl cellulose composite membrane for efficient degradation of methylene blue. Materials Chemistry and Physics. (2025).

3. Supramolecular perylene diimides for photocatalytic hydrogen production. (2025).

4. Research progress and development trends in the anti-oxidation mechanism and performance enhancement of uranium nitride as an accident-resistant nuclear fuel. Gongcheng Kexue Xuebao / Chinese Journal of Engineering. (2025).

5. Preparation of Co/S co-doped carbon catalysts for excellent methylene blue degradation. International Journal of Minerals, Metallurgy and Materials. (2025).

Prof. Dr. Xianming Zhou | Molecular Physics | Research Excellence Award

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Prof. Dr. Xianming Zhou | Molecular Physics | Research Excellence Award

Professor | Xianyang Normal University | China

Prof. Dr. Xianming Zhou  is a distinguished scholar recognized for his extensive contributions to molecular physics and related branches of advanced physical sciences. Serving as Deputy Director of a leading Ion-Beam and Optical Physics Laboratory, he has established a strong research profile marked by high-impact publications, interdisciplinary collaborations, and sustained contributions to fundamental and applied molecular physics. His work spans particle physics, high-charge ion physics, atomic interactions, radiation processes, and the complex behaviour of matter under extreme conditions, all consistently grounded in the principles and analytical frameworks of molecular physics. Prof. Dr. Xianming Zhou has authored numerous publications in respected international journals, contributing significantly to the global understanding of ion-matter interactions and the evolution of precision measurement approaches derived from molecular physics. His research outputs include more than two dozen peer-reviewed articles, demonstrating a strong record of innovation, methodological advancement, and scholarly rigour. Many of his studies are frequently cited and positioned at the forefront of contemporary research in molecular physics, high-charge ion dynamics, and atomic collision phenomena. Throughout his research career, Prof. Dr. Xianming Zhou has collaborated with experts across major scientific institutes and laboratories, enhancing the global visibility of his contributions. His investigations often integrate experimental and theoretical tools, extending the reach of molecular physics into frontier areas such as X-ray emission mechanisms, electron behaviour in extreme environments, and the broader physics of energetic ions. His leadership roles have further strengthened the development of research programmes grounded in molecular physics, supporting emerging scholars and facilitating high-level scientific cooperation. The societal impact of his work is reflected in its relevance to advanced instrumentation, materials analysis, radiation science, and precision technologies, where molecular physics remains central to innovation. Prof. Dr. Xianming Zhou continues to influence the international research community through his sustained commitment to molecular physics, his capacity for scientific leadership, and his enduring contributions to the advancement of modern physics.

Profile: ORCID

Featured Publications

1. Zhou, X.-M., Wei, J., Cheng, R., Liang, C.-H., Chen, Y.-H., Zhao, Y.-T., & Zhang, X.-A. (2023). K-shell X-ray of Al produced by collisions of ions with near Bohr velocities. Acta Physica Sinica, 72.

2. Zhou, X., Wei, J., Cheng, R., Zhang, Y., Zhang, Y., Chen, Y., Zhang, X., & Zhao, Y. (2023). L-shell X-ray production cross sections in 50Sn by 100 keV–300 keV protons. Radiation Physics and Chemistry, 110789.

3. Liang, C., Zhang, X., Zhou, X., Zhao, Y., Cheng, R., & Xiao, G. (2023). 96_42Mo L-shell X-ray production cross sections by 2.0–6.0 MeV 15263Eu ions. Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms.

4. Zhou, X.-M., Wei, J., Cheng, R., Mei, C.-X., Zeng, L.-X., Wang, X., Liang, C.-H., Zhao, Y.-T., & Zhang, X.-A. (2022). W L-shell X-ray emission induced by C⁶⁺ ions with several hundred MeV/u. Acta Physica Sinica, 70.

5. Zhou, X., Wei, J., Cheng, R., Zhang, Y., Chen, Y., Liang, C., Zhang, X., & Zhao, Y. (2022). Au L-shell X-ray emission induced by 154.3–423.9 MeV/u C⁶⁺ ions. Scientific Reports.

Mr. Ali Muhammad | Supersymmetry Phenomenology | Best Researcher Award

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Mr. Ali Muhammad | Supersymmetry Phenomenology | Best Researcher Award

Ali Muhammad | University of Chinese Academy of Sciences | China

Mr. Ali Muhammad is an emerging theoretical physicist whose expertise centers on Supersymmetry Phenomenology, integrating it deeply into his education, research, and professional practice. He completed his Bachelor’s, Master’s, and Ph.D. studies in Physics with a strong emphasis on Theoretical Physics and Supersymmetry Phenomenology, particularly through his doctoral research at the Institute of Theoretical Physics, University of the Chinese Academy of Sciences. His academic and teaching experience includes serving as a Lecturer in Physics at Leeds College of Science and Arts in Peshawar, where he honed his skills in both education and Supersymmetry Phenomenology. His research contributions, including publications in Physics Letters B and Physical Review D, reflect his ongoing commitment to advancing Supersymmetry Phenomenology, with specific focus on dark matter models, grand unified theories, and collider phenomenology. Mr. Ali Muhammad’s awards, such as multiple merit recognitions and the CAS-ANSO President’s Fellowship, highlight his excellence and dedication. His technical and research skills encompass Mathematica, MATLAB, Fortran, and specialized tools like MicrOMEGAs, which are instrumental in Supersymmetry Phenomenology studies. Through his extensive involvement in group research, model building, and theoretical analysis, he has applied Supersymmetry Phenomenology to address challenges in modern particle physics, cosmology, and quantum field theory. In conclusion, Mr. Ali Muhammad stands out as a promising scholar whose deep engagement with Supersymmetry Phenomenology, analytical capabilities, and collaborative research outlook position him as a valuable contributor to global advancements in theoretical and high-energy physics.

Profiles: Scopus | ORCID

Featured Publications

1. Khan, I., Muhammad, A., Li, T., & Raza, S. (2025). Revisiting the electroweak supersymmetry from the generalized minimal supergravity.

2. Khan, I., Muhammad, A., Li, T., Raza, S., & Khan, M. (2025). The light neutralino dark matter at future colliders in the MSSM with the generalized minimal supergravity (GmSUGRA).

3. Khan, I., Ahmed, W., Li, T., Raza, S., & Muhammad, A. (2025). The light neutralino dark matter in the generalized minimal supergravity (GmSUGRA). Physics Letters B.

4. Khan, I., Muhammad, A., Li, T., & Raza, S. (2025). Revisiting the realistic intersecting D6-brane model with positive and negative μ terms. Physical Review D.

Prof. Dr. Kyosuke Ono | Standard Model Physics | Best Researcher Award

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Prof. Dr. Kyosuke Ono | Standard Model Physics | Best Researcher Award

Professor of Emeritus | Institute of Science Tokyo | Japan

Prof. Dr. Kyosuke Ono is an esteemed physicist renowned for his pioneering contributions to Standard Model Physics and applied tribology. His distinguished career at the Tokyo Institute of Technology, where he served as a professor and later as an emeritus scholar, is marked by extensive research in Standard Model Physics that bridges fundamental particle behavior with mechanical system dynamics. Throughout his tenure, Prof. Dr. Ono made significant advances in understanding sub-monolayer lubricant physics within the head-disk interface, offering crucial insights that align the precision of Standard Model Physics principles with nanoscale mechanical phenomena. His scholarly work reflects deep engagement with the continuum mechanics framework and its extension into sub-monolayer film theory, where Standard Model Physics served as the theoretical backbone guiding molecular interactions and force distributions at the atomic level. Prof. Dr. Ono’s prolific academic output includes numerous publications in leading international journals such as Tribology Letters, ASME Transactions on Tribology, and ASME Transactions on Applied Mechanics. His h-index of 26 demonstrates substantial influence and citation within the global Standard Model Physics and mechanical engineering communities. His collaborations with the Storage Research Consortium in Japan and industrial contributions as a technical advisor for hard disk drive development underscore his ability to translate Standard Model Physics insights into practical innovations with lasting industrial relevance. Furthermore, as an editorial board member for Lubricants (EDPI), he has consistently advanced the dissemination of high-quality research in the interdisciplinary field of tribology and Standard Model Physics. Through his remarkable integration of theory, experimentation, and application, Prof. Dr. Kyosuke Ono has significantly shaped modern interpretations of nanoscale lubrication and dynamics. His work stands as a testament to the versatility of Standard Model Physics in solving real-world engineering problems and continues to inspire the next generation of researchers to extend the boundaries of applied and theoretical physics.

Profile: ORCID

Featured Publication

1. Ono, K. (2016–2019). Analytical study of slider vibrations and lubricant flow in subnanometer head-disk interface [Grant No. 16K06039]. Ministry of Education, Science and Technology, Tokyo, Japan.

Dr. hardeep kaur | Experimental Methods | Best Researcher Award

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Dr. Hardeep kaur | Experimental Methods | Best Researcher Award

Assistant Professor at Khalsa College | India

Dr. Hardeep kaur is a dedicated researcher in organic chemistry with expertise in drug discovery, fluorescence probes, and computational studies. Through innovative Experimental Methods, she integrates traditional synthesis with in silico modeling to address health challenges like malaria and tuberculosis. Her work on molecular recognition of heavy metals and biological targets highlights the power of Experimental Methods in both diagnostics and therapeutics. As an assistant professor at khalsa college, she combines academic guidance, mentoring, and research leadership with extensive use of Experimental Methods. Her collaborations have advanced applied chemistry, bridging theoretical understanding with practical Experimental Methods. Her consistent contributions and awards demonstrate excellence and dedication, reflecting her continuous pursuit of innovation through rigorous Experimental Methods.

Professional Profiles 

Scopus Profile | ORCID Profile

Education 

Dr. Hardeep kaur holds a strong academic foundation in chemistry, with advanced training that shaped her expertise in Experimental Methods. From undergraduate honors to postgraduate specialization and doctoral research, her education emphasized organic synthesis, molecular design, and mechanistic studies through Experimental Methods. Guided by leading chemists, she developed skills in complex reaction pathways, spectroscopic analysis, and computational approaches that rely heavily on Experimental Methods. Her academic journey refined critical thinking and innovative strategies, incorporating both theoretical principles and Experimental Methods to solve chemical and biological challenges. This solid educational background empowers her to teach, supervise, and inspire future scientists while continuing her own research through advanced Experimental Methods in organic and medicinal chemistry.

Experience 

Assistant professor at khalsa college, Dr. Hardeep kaurhas excelled in teaching, research, and departmental leadership using Experimental Methods as a central tool. She manages academic programs, oversees innovation initiatives, and contributes to institutional committees while guiding students in Experimental Methods. Her professional journey includes supervising numerous postgraduate theses and coordinating seminars, ensuring students develop hands-on skills with modern Experimental Methods. She actively collaborates with academic and industrial partners to translate Experimental Methods into practical solutions, fostering interdisciplinary projects. This extensive professional experience demonstrates her capacity to merge classroom instruction, administrative leadership, and high-impact research into a seamless practice of chemistry through consistent application of Experimental Methods.

Research Interest 

Dr. Hardeep kaur’s research interests revolve around drug discovery, bioactive heterocycles, molecular sensors, and computational chemistry, all enriched by Experimental Methods. She focuses on designing antiplasmodial and antimycobacterial compounds, employing Experimental Methods to optimize synthesis and evaluate biological mechanisms. Her work on fluorescence probes for heavy metal detection utilizes Experimental Methods to develop selective and sensitive systems for environmental and biomedical use. Additionally, her research explores Density Functional Theory (DFT) to complement Experimental Methods, providing mechanistic insight. By integrating Experimental Methods with theoretical modeling, her investigations advance both academic understanding and translational applications in medicinal chemistry, environmental sensing, and advanced material development, maintaining Experimental Methods as a foundation of her scientific contributions.

Award and Honor

Dr. Hardeep kaur has earned recognition for academic excellence, impactful research, and innovation in chemistry, highlighting her skill in Experimental Methods. Her honors include gold medals, competitive fellowships, and international article citations that showcase the influence of her Experimental Methods-based discoveries. Highly cited works on antimalarial hybrids and chemical sensors confirm the global relevance of her Experimental Methods in both healthcare and analytical sciences. Prestigious awards from scientific societies acknowledge her leadership and innovative approaches that combine creativity with rigorous Experimental Methods. Through national and international appreciation, her career reflects a consistent pattern of achievement, driven by precise, reproducible, and groundbreaking Experimental Methods that set benchmarks in modern organic and medicinal chemistry.

Research Skill

Dr. Hardeep kaur possesses advanced research skills in organic synthesis, analytical techniques, and computational modeling, all grounded in Experimental Methods. She is proficient with spectroscopic tools, chromatographic systems, and molecular docking programs, applying Experimental Methods to characterize compounds, validate hypotheses, and interpret biological activities. Her ability to manage sensitive reagents, inert atmospheres, and reaction optimization demonstrates mastery in practical Experimental Methods. Additionally, her integration of data analysis, visualization, and presentation ensures Experimental Methods translate into impactful publications and collaborations. This comprehensive skill set allows her to solve complex chemical problems, mentor future researchers, and develop novel strategies, all underpinned by her expertise in Experimental Methods that bridge innovation and reproducibility.

Publication Top Notes 

Title: Development of sensitive napthaquinone-pyridine hydrazone based chemosensor for the colorimetric detection of Cu2+ ion in an aqueous solution
Year: 2025
Citations: 2

Title: Exploring the anticancer potential of Lasia spinosa rhizomes: insights from molecular docking and DFT investigations on chlorogenic acid and beyond
Year: 2024
Citations: 0

Conclusion

Dr. Hardeep kaur’s career reflects a harmonious integration of education, research, teaching, and collaboration, powered by Experimental Methods. Her dedication to advancing drug discovery, molecular sensing, and applied organic chemistry showcases the transformative potential of well-designed Experimental Methods. Through her leadership, students and colleagues gain exposure to rigorous Experimental Methods that foster innovation and integrity in science. Her achievements across academia, publications, and recognition confirm her role as a leading contributor to modern chemistry, where Experimental Methods not only support discovery but drive scientific evolution. Ultimately, her journey demonstrates how perseverance, creativity, and meticulous Experimental Methods shape impactful careers and contribute meaningfully to global scientific advancement.